Economy & Market
A circular economy is imperative for a sustainable future
Published
5 years agoon
By
admin
Ujjwal Batria, Chief Operating Officer, Dalmia Cement (Bharat)
Give us a brief on the activities of Dalmia Group in the Indian subcontinent regarding AFR.
Cement is an essential commodity in construction and infrastructure development. Although there is some environmental impact during its production, we have always adhered to strict environmental norms and have implemented various measures in line with the evolving technologies to reduce the carbon footprint. In sync with the Swachh Bharat Mission, we make major use of AFR (alternative fuels and raw materials).
Apart from AFR, we use fly ash (thermal power plant waste) and BF Slag (steel industry waste) in our blended cement, which comprises nearly 80 per cent of our product portfolio. Our AFR consumption has more than doubled from 14.5 per cent in FY20 per cent 13-14 to 30 per cent in FY2017-18. Portland Slag Cement and Portland Composite Cement collectively contribute to nearly 50 per cent of our product portfolio. Similarly, our clinker factor has come down to 63 per cent at current levels from about 81 per cent in 2013.
What has been the performance of Dalmia in the last two years in terms of TSR? What do you think about the next three years?
At the group level, we have touched 4 per cent TSR (Thermal Substitution Rate) compared to nearly 0.5 per cent five years ago. We have also developed pockets of excellence in some plants where nearly 18 per cent of TSR has been achieved. Presently, we are utilising various alternative fuels such as biomass, tyre nylon threads, carbon black, spent wash, paint sludge, spent carbon, sawdust as well as waste from cotton, plastic and footwear. While boosting the bottom line, these simultaneously curb GHG (greenhouse gas) emissions from cement operations. Moving forward, we are augmenting our fuel feeding systems with additional investments for making more use of both solid and liquid alternative fuels.
What do you think needs to be done urgently to improve the overall TSR numbers in the country?
Thermal Substitution Rate refers to the percentage of sustainable alternative fuels used in replacing fossil fuels. Commodity materials such as refuse-derived fuel (RDF) improve TSR percentage but lower investment payback. India is targeting 25 per cent TSR by 2025. Yet, compared to global standards (TSR of about 60 per cent to 100 per cent in many countries), we remain far behind. The main issues – waste characteristics and lack of support from the required agency for generating good segregated waste quality.
A circular economy is imperative for a sustainable future. Given its second-largest producer tag, India’s cement industry contributes to the circular process by handling different types of waste – whether it is steel industry slag, municipal solid waste or fly ash. The cement industry can be a mega player in waste management. In 2017-18, its production was 298 MTPA, which is expected to touch more than 550-600 MTPA by 2025. To meet this demand, it requires more than 51 million tonnes of coal that is already in short supply.
Besides, given the Centre’s Swachh Bharat Mission, we should use alternative fuels and raw materials (AFR). Along with the need for AFR, it is essential to use RDF along with other industrial waste, which is anyway a part of kiln feeds. Consequently, RDF offers an immense opportunity to boost the TSR of cement kilns, which could also save millions in foreign exchange due to lower coal imports. From 1 per cent a few years ago, the average TSR is now 4 per cent. The target is 25 per cent by 2025 and 30 per cent by 2030.
Are you handling industrial or any hazardous waste at any of the plants under your control? Kindly provide details.
The country’s cement industry is no longer as polluting or hazardous as some others since a complete transformation has occurred in this sector. A single visit to any of our sites will dispel any preconceived notions about cement plants being most polluting and hazardous.
The environmental emission norms mandated by the Government of India for the cement industry are at par with many developed countries. Cement is a basic building block and an essential glue that binds concrete – the world’s second-most consumed commodity after water. Nonetheless, when any industrial activity takes place on such a scale, some collateral impact on the environment cannot be ruled out. In recent years, however, the industry has made its operations significantly safer.
Overall, the industry is using waste more energy efficiently. The industry consumes almost 50 per cent of the country’s fly ash. Likewise, the steel industry’s entire BF Slag is used by our industry. Many cement plants in India are water positive. In other words, we are providing more water to nature than we take from it. The cement industry is growing by leaps and bounds in promoting sustainable business practices in India. Recently, international climate research rating agency CDP published their report on the global cement sector. CDP ranked six cement companies from India in the Top 10. Dalmia Cement has been ranked No.1 in the CDP report on business readiness for low carbon transition.
More than 65 per cent of cement production capacity in India comes under the Global Cement and Concrete Association (GCCA). The main objective of GCCA is introducing sustainable business practices in the industry. Moreover, safety is the topmost priority. Typically, there is a major shift in providing a safe environment for our employees. Progressive cement companies are implementing a people-first policy, making the safety of workers a priority. Engagement in the supply chain is another area where much progress has been made. Various programmes such as defensive driving and driver passport system have been initiated for greater safety of workers, including during transport-related operations.
Provide more details on the platform created for handling hazardous waste.
Cement kilns deploy co-processing in waste disposal. Unlike landfilling and incineration, this practice is a more sustainable and environment-friendly waste disposal method thanks to the lower emissions and lack of residue after the treatment. Recently, our cement sector has made significant investments in ensuring a greener future via the enhanced use of AFR and other means. But the industry’s contribution is contingent on the progress of the nation’s overall waste management segment.
The progress on the AFR front has been robust, which includes the penetration of blended cements. While OPC (Ordinary Portland Cement) was the market leader in India earlier, today it has only around 20-25 per cent of market share. It is heartening that nearly 75 per cent of the nation’s cement production presently is in the form of various types of blended cement against barely 30 per cent in 1999-2000. The Indian cement industry has more potential to use alternative fuels than is being done currently. Yet, to achieve this, a complete transformation is required in India’s waste management sector from the generation point to disposal methods. Once implemented, the circular economy could become the backbone of India’s waste management practices. There is overwhelming customer acceptance of environment-friendly products. Many States have also come forward and developed policies for greater utilisation of blended cements. On our part, we are continuing policy advocacy and training of masons in using more blended cements and making them sensitive to environmental issues such as climate change. The use of industrial wastes in cement offers the technical advantages of improved durability and lower carbon footprint.
Can hazardous waste and other waste materials go together in the kiln or have to be moved separately?
Cement kilns use co-processing for waste disposal. Unlike landfilling and incineration, this is a more sustainable and environment-friendly waste disposal method due to lower emissions and lack of residue after the treatment. Thereby, waste materials in industrial processes are used as AFRs in recovering material and energy from them. These are fully utilised as a replacement for fossil fuels in cement kilns. Given the high temperatures in cement kilns, various kinds of wastes are disposed of effectively without harmful emissions by co-processing. In many countries, different types of plastic wastes are regularly disposed of in an environmentally-sound manner through co-processing. In essence, hazardous and non-hazardous wastes, which includes plastic wastes, are used as AFRs.
Nonetheless, care is required in selecting wastes and equipment, with trained personnel handling the co-processing of any waste. Tell us something about the pre-processing required for hazardous waste.
Conversion of Segregated Combustible Fraction (SCF) into RDF is done by a waste management operator at the existing waste management site. This comprises setting up a pre-processing facility with storage, shredding and blending operations. The cement company needs to establish a co-processing facility in the plant to ensure its viability. For the plant, the expenditure streams are the pre-processing cost and RDF transportation cost.
In utilising hazardous waste, enormous challenges arise since it’s necessary to have proper inputs from waste generators about the waste characteristics while having a proper material safety data sheet to understand the important precautions during transportation and usage of different wastes.
What has been your experience in moving waste across state borders after the introduction of GST? To what extent the movement has become less painful?
Overall, the introduction of GST has made transport of waste smoother besides reducing the compliance costs as well as complexity. Earlier, due to multiple state entry taxes and CST, it was more cost-effective in maintaining multiple warehouses in different states. But the higher number of warehouses meant most were operating below capacity, creating operational inefficiencies. GST has made this practice redundant as companies benefit by consolidating and maintaining warehouses wherever it is more beneficial. This has thus boosted operational efficiencies.
Additionally, there is a reduction in transit time as vehicles now spend less time idling at checkpoints. In turn, this has lowered logistics costs. Taking these factors into account, movement of waste is less cumbersome for cement companies today.
It is said processing of any kind of waste is not a problem but the issue is of logistics and getting waste at the plant at the right price. How do you think the problem can be solved?
For an industry holding 10 per cent global market share and as the third-largest volume product loader of the Indian Railways, multi-modal transport options are crucial. In comparison with other industries, as a per centage of sales, cement holds the highest logistics cost. This cost soars when the material is unloaded and transported further via road and if it is brought from or taken to the hinterland. The industry requires solutions for controlling transport costs since it comprises about 20% of retail cement prices. Therefore, automation of key processes vis-a-vis monitoring and controls could provide savings in freight costs. Some initiatives can include planned transport deploying intelligent algorithms as well as smart monitoring in implementing operations via GPS technologies.
Wherever possible, Railways should be used for transport as it is the most economical form. Such a focused approach can yield cost benefits. Meanwhile, initiatives are being undertaken by the Railways to ease movement of goods – whether raw materials or finished products. Development of mega stations and dedicated freight corridor will also be useful in boosting cement logistics. More cement manufacturers are now inking long-term freight contracts with the Railways, which will lead to a significant reduction in operating costs.
Do you think that Indian plants have been handling waste in a safe manner that will not cause harm to society in general?
While supply, segregation, quality and consistency are important in handling waste safely, segregation is the most important. Segregation and management at source are generally the best means of managing waste. Thereafter, waste quality and consistency are essential for effective disposal. While existing norms are adequate, the focus needs to be on proper implementation. Standardisation of waste disposal norms could facilitate greater safety while ensuring the cement sector leaves a lower carbon trail.
Concrete
Boosting Concrete Workability with Grinding Aids
Published
12 hours agoon
June 16, 2025By
admin
Dr SB Hegde highlights how AdoCem® WE++ grinding aid improves cement fineness and reduces water demand, effectively minimising slump loss and enhancing concrete workability retention. The study confirms its role in improving both slump retention and compressive strength over time.
In the production of concrete, maintaining consistent workability is crucial for efficient mixing, transporting, and placing of the material. However, concrete slump loss, or the reduction in workability over time, is a common challenge, particularly in large-scale projects where the concrete mix needs to remain workable for extended periods, such as during long-distance transportation or complex placements. Slump loss greater than 150 mm within 3 hours can lead to difficulties in handling and finishing, impacting both the quality and the efficiency of construction.
One effective solution to control slump loss is the use of grinding aids during the cement production process. This technical note focuses on the application of AdoCem® WE++ grinding aid during the cement grinding of Ordinary Portland Cement (OPC) to resolve slump loss issues and improve concrete workability retention.
The role of AdoCem® WE++ grinding aid
AdoCem® WE++ is a high-performance grinding aid designed to improve the efficiency of cement grinding by reducing the energy required to achieve a desired fineness. It works by modifying the surface properties of cement particles, reducing agglomeration, and improving the flowability of the material. As a result, it enhances the production process, reduces specific energy consumption, and improves the overall quality of the cement.
In addition to its primary function in cement grinding, AdoCem® WE++ has been shown to have beneficial effects on the physical properties of the cement, particularly in terms of workability and water demand in concrete mixes. By optimising the cement particle size distribution, the grinding aid can reduce water requirements, resulting in better workability retention and lower slump loss over time.
Slump loss problem in concrete
Concrete slump loss is a significant issue
that affects the workability of fresh concrete. Over time, fresh concrete tends to lose its fluidity, which can lead to challenges in handling and placing the mix. The rate of slump loss is influenced by several factors, including:
- Cement fineness: Finer cement particles tend to absorb more water, requiring higher water-to-cement ratios to maintain a constant slump. This leads to increased slump loss.
- Cement composition: The chemical composition and particle size distribution of the cement affect hydration rates and, consequently, the workability over time.
- Environmental conditions: Temperature, humidity, and mixing conditions also play a critical role in slump retention.
In this context, the introduction of AdoCem® WE++ grinding aid helps optimise cement properties, ensuring that the water demand is minimised and workability is better maintained over an extended period, thereby mitigating slump loss.
Research methodology 4.1 Materials
- Cement: Ordinary Portland Cement (OPC) was used in this study.
- Grinding aid: AdoCem® WE++ was used as the grinding aid, added at dosages of 0.06 per cent, 0.08 per cent, and 0.10 per cent by weight of cement.
- Concrete mix: A standard concrete mix with a water-to-cement ratio of 0.50 was prepared. The target slump was 150 mm, with slump loss measurements taken at intervals up to 3 hours.
4.2 Experimental setup
- Cement grinding: OPC was ground in a ball mill, with the addition of AdoCem® WE++ at the specified dosages. The energy consumption, fineness, and particle size distribution of the cement were analysed.
- Concrete mix preparation: Concrete was mixed using cement treated with AdoCem® WE++ grinding aid, along with conventional mixing procedures.
- Slump testing: Slump was measured using the standard slump cone test at 0, 30, 60, 90, and 180 minutes after mixing to determine the rate of slump loss.
- Compressive strength: Concrete cubes (150 mm x 150 mm) were cast, cured, and tested at 7, 28, and 90 days to assess the impact of grinding aids on strength development.
Results and discussion
5.1 Cement fineness and energy consumption
The use of AdoCem® WE++ significantly improved the grinding efficiency, resulting in a more uniform particle size distribution. The cement treated with AdoCem® WE++ showed a Blaine fineness of 320 m²/kg, compared to 300 m²/kg for the control cement, indicating that the grinding aid allowed for finer grinding without increasing energy consumption. This reduced the production costs while improving cement quality.
5.2 Slump retention
The main focus of this study was to evaluate the effect of AdoCem® WE++ on slump retention. Concrete mixes with grinding aid-treated cement showed a notable improvement in slump retention over time compared to the control mix.
- Control cement (no grinding aid): The control mix experienced a slump loss of 80 mm after
2 hours. - AdoCem® WE++ at 0.06 per cent dosage: Concrete with cement treated with 0.06 per cent AdoCem® WE++ showed a slump loss of 100 mm after 3 hours, a significant improvement over the control mix.
- AdoCem® WE++ at 0.08 per cent dosage: At a dosage of 0.08 per cent, the slump loss was reduced to 120 mm after 3 hours, demonstrating further improvement.
- AdoCem® WE++ at 0.10 per cent dosage: The highest dosage of AdoCem® WE++ resulted in the best performance, with only a 150 mm slump loss after 3 hours, which meets the target of maintaining workability over extended periods.
5.3 Hydration behaviour and setting time
The addition of AdoCem® WE++ appeared to slightly delay the initial setting time compared to the control mix. This delay in setting time helps to extend the period during which the concrete remains workable, thereby reducing the risk of excessive slump loss. The improved hydration behaviour
also contributed to better overall consistency in the concrete mix.
5.4 Compressive strength
Concrete cubes made with cement treated by AdoCem® WE++ exhibited slightly higher compressive strength compared to the control mix. At 28 days, the compressive strength of the AdoCem® WE++ mixes were 5 per cent to 8 per cent higher, indicating that the grinding aid not only improved workability but also contributed to more efficient cement hydration and stronger concrete.
Conclusion
The addition of AdoCem® WE++ grinding aid during the cement grinding process significantly improves the workability retention of concrete, effectively maintaining slump loss over a 3-hour period. By optimising the particle size distribution of cement, AdoCem® WE++ reduces water demand and enhances the stability of the concrete mix, thereby ensuring that the slump remains within the desired range (150 mm) for an extended period. Furthermore, the grinding aid improves cement efficiency, reduces energy consumption during grinding, and enhances the strength development of concrete.
This study demonstrates that AdoCem® WE++ is an effective solution for mitigating concrete slump loss, making it a valuable tool for construction projects where concrete workability must be maintained over longer periods. The optimal dosage of AdoCem® WE++ for achieving the best performance in terms of slump retention and strength is around 0.1 per cent by weight of cement.
About the author:
Dr SB Hegde, a global cement industry leader with over 30 years of experience, is a Professor at Jain College of Engineering, India, and a Visiting Professor at Pennsylvania State University, USA.
Concrete
The main pushback against automation is budget
Published
12 hours agoon
June 16, 2025By
admin
Mehul Doshi, Head of Department — Customer Support and Service, HAVER & BOECKER, shares insights on leveraging diagnostics and optimisation tools to address challenges in automation of bagging, packaging, and palletising processes.
In the fiercely competitive cement industry, optimising bagging, packaging and palletising processes is no longer a luxury but a necessity. Cutting-edge diagnostics and tailored optimisation plans are transforming how plants enhance efficiency, reduce waste, and boost safety — all while advancing sustainability goals. Through a seamless blend of digital monitoring and hands-on audits, manufacturers are now able to identify bottlenecks, minimise product loss and future-proof their operations, shares Mehul Doshi, Head of Department — Customer Support and Service, HAVER & BOECKER, in this exclusive interview.
How do QUAT2RO® and POP enhance efficiency in bagging, packaging, and palletising for the cement industry?
Comprising the diagnostics section of HAVER & BOECKER’s PROcheck lifecycle approach, QUAT2RO® and the Plant Optimisation Plan (POP) help operations increase plant performance, optimise machine conditions, set up and use resources, raise health and safety standards and improve energy efficiency.
As the digital tool of HAVER & BOECKER’s diagnostics approach, QUAT2RO® collects short-term and long-term production data on all connected machines. The data combines performance and maintenance reports into a single dashboard to make monitoring equipment settings simple. QUAT2RO® System Monitoring alerts operators to any discrepancy in the packing or palletising machines to allow faster maintenance and increase efficiency on the packing line. HAVER & BOECKER recommends installing QUAT2RO® on packing lines before engaging in a Plant Optimisation Plan (POP) to collect information on the baseline performance of the line.
POP is the human approach toward diagnostics. For the POP, HAVER & BOECKER engineers visit the customer plant to observe the operation and recommend enhancements classified by level of urgency. The full plant audit considers all areas, from product storage and handling to packing, bag transport, palletising and loading lines, as well as surrounding machines and environmental factors. The engineers send a full report tagged with green, yellow or red to highlight areas for improvement, ensuring that critical updates are prioritised.
HAVER & BOECKER’s Bag Optimisation Plan (BOP) is a very important part of the POP and allows it to go beyond the mechanical equipment and into the important role of consumables. While the goal of the POP is to find the perfect harmony between the bag, the product and the machine, the BOP focuses on all aspects of the bag and includes a bag volume test, bag valve check, visual pallet check and a bag specification check. The HAVER & BOECKER Institute tests and analyses the bag and the product to optimise all three major factors in the packing process — machine, bag and product —resulting in the highest levels of productivity and efficiency.
What common challenges in cement packing plants do your diagnostics tools address, and how are the solutions tailored?
HAVER & BOECKER diagnostics tools primarily focus on production issues, whether that’s tracking equipment efficiency through QUAT2RO® or providing recommendations for optimising existing equipment and processes. One of the biggest challenges plants face is dust escaping as bags are filled. Most packing equipment comes in a one-size-fits-all approach, meaning it’s not optimised for each individual product. If not treated properly, free-flowing powder material like cement will settle on the floor, equipment and operators instead of in the bag. HAVER & BOECKER diagnostics, specifically their POP and BOP, considers the individual properties of the cement being poured and how to direct it into the bag most effectively.
The bags used for packing cement can contribute to the amount of material lost in the packing process. Unsealed valve bags rely on the inner pressure of the bag to close, which results in the bag being only 70 per cent closed, leaving a 30 per cent opening for spillage. An improperly sealed bag results in material loss at a rapid rate while in storage and throughout transport, leading to a total product loss of up to 5 per cent. That’s why HAVER & BOECKER offers SEAL technology. Ultrasonic sealing effectively welds bags shut, resulting in the bag being 100 per cent closed. Unlike adhesive closed bags, this type of seal means bags won’t unstick over time and cause spillage if left in storage. This bag also eliminates product loss during transport.
If a facility is seeing similar product loss in their plant, HAVER & BOECKER will address the type of bag being used and recommend an upgrade to SEAL technology in their optimisation plan. They will also address any dust production issues in the full packing line to optimise production.
How does QUAT2RO® improve process efficiency, and which KPIs are critical?
QUAT2RO® detects issues before they become critical to the packing line. Operators can monitor machines’ production rates in real time to see how their equipment is performing. The results can be used to check production levels and identify solutions to productivity challenges and inefficiencies. This data can show any bottlenecks in the packing line so operators can address the issue immediately.
All data is stored in a single online portal with customisable alert systems and report templates. The portal keeps track of maintenance intervals for all assemblies and components and sends early notifications as a reminder to order wear parts. The system can also be accessed by the HAVER & BOECKER service team, providing cement plants with direct contact with our experts to address any of their concerns.
How do your solutions support sustainability goals like energy efficiency and waste reduction?
Sustainability and energy efficiency are at the heart of what we do. HAVER & BOECKER offers 10 energy saving solutions for packing lines that cover everything from optimising equipment performance to keeping equipment clean and having equipment serviced regularly. Optimising machine performance leads to energy efficiency because any material that escapes the packing process is a loss, which means the rest of the production plant needs to produce more to make up for it. Having a packing line fully optimised is one easy way to ensure energy efficiency and waste reduction.
How does the PROcheck lifecycle approach integrate with existing equipment in cement plants?
One of the many benefits of PROcheck lifestyle approach is that it can be integrated into the cement plant’s processes at any time. The first step to a full PROcheck is the Plant Optimisation Plan where an engineer comes to visit the plant and assess the technology, packing line and product being produced. No matter what technology is currently in use, our engineers provide a full report addressing any concerns and suggesting updates.
What trends in bagging, packaging, and palletising are shaping the cement industry?
Sustainability and automation are prime motivators for the cement industry right now. Whether that’s completely automating processes to increase efficiency or using electric equipment to cut down on carbon emissions, cement producers want to be able to produce better quality cement with more technologically advanced equipment.
The industry has seen a huge push toward automation in many places around the world. However, the main pushback against automation is budget. Budgetary restrictions are universal and often hold cement plants back from taking the plunge. We recognise this need and have started working with The Portland Company to provide Assemble to Order packing equipment with introductory automation that helps plants start their journey with plenty of room to expand into more customised equipment with us later. This ensures that all operations, no matter where in the world they’re located, can get an automated option suited for their unique packing line and access best-in-class service.
How does POP (and BOP) ensure optimal coordination of machines, bags, and products?
A POP includes a full plant audit that considers all areas, from product storage and handling to packing, bag transport, palletising and loading lines as well as surrounding machines and environmental factors. The goal of the report is to give plant managers a thorough, solid idea of how their plant is currently performing and where critical updates need to be made. The full POP, including the BOP, considers machines, bags and products to give an overarching recommendation on how all of them can work together for the best results.
The HAVER & BOECKER Institute completes the BOP, checking the chemical composition of the product, how the machine can aerate the product for maximum efficiency in filling and which bags provide the best protection for that specific product. The goal is to have a cohesive packing line that works together in the most efficient way possible.
What new innovations or upgrades are you introducing to improve packing plant performance?
Our newest products are meant to continually improve the packing line and provide the best support possible throughout the packing process. One major update we’ve introduced is the AMICUS Advanced Robot Family. The AMICUS DEPAL Edition depalletises bags and places them on an automatic bag applicator while the AMICUS PAL Edition palletises bags, boxes, drums and pails for transport. The AMICUS DEPAL replaces a previously manual process and increases safety, which is one of the major benefits of the system. If a facility invests in both an AMICUS PAL and DEPAL, they can create a fully automated packing line from empty to full bag.
Another optimisation HAVER & BOECKER is focused on is the unique ADAMS® Technology. ADAMS® is the system for packing cement into PE bags, offering an unlimited list of advantages. There has been rapid growth in the way ADAMS® is used, including how it has expanded into the cement sector. The FFS film bags used with the ADAMS® ROTO-PACKER protect powder cement from the elements while in transit and in storage. The waterproof, weatherproof bags offer a variety of benefits to all the industries we touch, which is an exciting expansion of our pre-existing line.
Concrete
Condition-based maintenance avoids over-servicing
Published
12 hours agoon
June 16, 2025By
admin
JayaKrishna Kokku, Lead – Technical Operations, APAC & Middle East, Nanoprecise Sci Corp shares how their AI-powered IoT solution boosts productivity and sustainability in dusty cement plants through predictive maintenance. Read the full interview to learn more.
In an industry where dust, heat and vibration constantly challenge the health of critical equipment, predictive maintenance is fast becoming a game-changer. In this conversation, JayaKrishna Kokku, Lead – Technical Operations, APAC & Middle East, explains how Nanoprecise’s IoT solution is tackling the harsh realities of cement environments, delivering real-time equipment insights, accurate Remaining Useful Life (RUL) predictions and ensuring longer asset life and fewer costly breakdowns.
How does Nanoprecise IoT solution tackle equipment monitoring challenges in dusty cement plant environments?
Its wireless sensors are rugged, IP68 rated, and can reliably operate in high-dust environments without degradation. These sensors continuously monitor vibration, temperature, acoustic signals, humidity, Magnetic flux and RPM on critical rotating equipment. Data is transmitted securely to the cloud, enabling continuous, remote asset health monitoring, even in areas difficult for human inspection.
What role does your AI-driven analytics platform play in improving operational efficiency in cement plants?
The AI-driven analytics platform from Nanoprecise processes sensor data using advanced machine learning and physics-based algorithms. It detects early signs of component degradation (e.g., bearing faults, misalignment, imbalance) and provides actionable insights. By identifying potential failures weeks or months in advance, the platform allows cement plant operators to shift from reactive to proactive maintenance.
How do accurate RUL (Remaining Useful Life) insights help cement manufacturers optimise maintenance and reduce downtime?
Nanoprecise RUL predictions are powered by AI models that analyse sensor data fault trends over time. By accurately forecasting how long a component or system will function before failure, maintenance teams can plan interventions only, when necessary, rather than on fixed schedules. This minimises unnecessary maintenance, avoids catastrophic breakdowns, and ensures spare parts and labour are optimally allocated—drastically reducing both planned and unplanned downtime.
Can predictive maintenance be using your technology boost productivity while lowering operational disruptions?
Absolutely! Predictive maintenance enabled by Nanoprecise technology provides early fault detection and automated diagnostics, ensuring that equipment is always in optimal working condition. By addressing issues before they escalate, plants can maintain continuous operations, increase equipment uptime, and reduce the risk of costly shutdowns.
How does your solution support both productivity and sustainability goals in cement manufacturing?
- Reduced Energy Waste: Equipment running inefficiently consumes more energy. Early detection of faults ensures machines run optimally, reducing unnecessary energy usage.
- Lower Carbon Emissions: Improved efficiency and reduced downtime mean lower emissions per ton of cement produced.
- Extended Equipment Life: Condition-based maintenance avoids over-servicing, extending the life of components and reducing waste.
Together, these benefits support sustainable operations without compromising output.

Boosting Concrete Workability with Grinding Aids

The main pushback against automation is budget

Condition-based maintenance avoids over-servicing

Live data accessibility helps teams respond quickly

We aim to make sustainable practices more accessible

Boosting Concrete Workability with Grinding Aids

The main pushback against automation is budget

Condition-based maintenance avoids over-servicing

Live data accessibility helps teams respond quickly
